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\@writefile{lof}{\contentsline {figure}{\numberline {1}{\ignorespaces {\sc  Dahl's Friction Model}. This figure shows the clockwise ({\bf  CW}) hysteresis which characterizes experimentally observed kinetic friction. $F$ denotes the friction force, $X$ denotes de relative motion between the two surfaces in contact, $F_c$ denotes the Coulomb friction, $\sigma $ is the stiffness coefficient, and $\alpha $ is a parameter that determines the shape of the stress-strain curve (the value $\alpha =1$ is most commonly used). $v$ denotes the velocity, and the arrow heads shows the direction of motion. As can bee seen in this model the friction is supposed to be only a function of the displacement and the sign of the velocity (which can be then understood a logical variable).\relax }}{2}{figure.caption.2}}
\newlabel{dahl}{{1}{2}{{\sc Dahl's Friction Model}. This figure shows the clockwise ({\bf CW}) hysteresis which characterizes experimentally observed kinetic friction. $F$ denotes the friction force, $X$ denotes de relative motion between the two surfaces in contact, $F_c$ denotes the Coulomb friction, $\sigma $ is the stiffness coefficient, and $\alpha $ is a parameter that determines the shape of the stress-strain curve (the value $\alpha =1$ is most commonly used). $v$ denotes the velocity, and the arrow heads shows the direction of motion. As can bee seen in this model the friction is supposed to be only a function of the displacement and the sign of the velocity (which can be then understood a logical variable).\relax \relax }{figure.caption.2}{}}
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\@writefile{lof}{\contentsline {figure}{\numberline {2}{\ignorespaces {\sc  {\bf  CW} Hysteresis in the FOXO1a-Zstk relation}. This image shows the behavior observed experimentally when disrupting the AKT signaling pathway through the application of the Zstk drug, in two different cases: the non-pretreated case (in red) and the treated case (in black).\relax }}{3}{figure.caption.3}}
\newlabel{zstk1}{{2}{3}{{\sc {\bf CW} Hysteresis in the FOXO1a-Zstk relation}. This image shows the behavior observed experimentally when disrupting the AKT signaling pathway through the application of the Zstk drug, in two different cases: the non-pretreated case (in red) and the treated case (in black).\relax \relax }{figure.caption.3}{}}
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\@writefile{lof}{\contentsline {figure}{\numberline {3}{\ignorespaces {\sc  Disappearing hysteresis inhibiting mTOR raptor}. The figure shows the experimentally observed FOXO1a-Zstk relation when the treated cells are modified in order to suppress the expression of mTOR raptor.\relax }}{3}{figure.caption.4}}
\newlabel{mtor}{{3}{3}{{\sc Disappearing hysteresis inhibiting mTOR raptor}. The figure shows the experimentally observed FOXO1a-Zstk relation when the treated cells are modified in order to suppress the expression of mTOR raptor.\relax \relax }{figure.caption.4}{}}
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\@writefile{lof}{\contentsline {figure}{\numberline {4}{\ignorespaces {\sc  Sustained oscillation in the AKT signaling pathway}. This figure shows the oscillatory behavior of the cellular concentrations of rictor (in blue) and active AKT ({\em  i.e.} pAKTp, in red).\relax }}{4}{figure.caption.5}}
\newlabel{modelo}{{4}{4}{{\sc Sustained oscillation in the AKT signaling pathway}. This figure shows the oscillatory behavior of the cellular concentrations of rictor (in blue) and active AKT ({\em i.e.} pAKTp, in red).\relax \relax }{figure.caption.5}{}}
\@writefile{lot}{\contentsline {table}{\numberline {1}{\ignorespaces Parameters and initial conditions for the simulation shown in Figure \ref  {modelo}.\relax }}{4}{table.caption.6}}
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